Phylogenetic evidence clarifies the history of the extrusion of Indochina

The southeastward extrusion of Indochina along the Ailao Shan–Red River shear zone (ARSZ) is one of two of the most prominent consequences of the India–Asia collision. This plate-scale extrusion has greatly changed Southeast Asian topography and drainage patterns and effected regional climate and bi...

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Published inProceedings of the National Academy of Sciences - PNAS Vol. 121; no. 35; p. e2322527121
Main Authors Li, Xiao-Qian, Peng, Huan-Wen, Xiang, Kun-Li, Xiang, Xiao-Guo, Jabbour, Florian, Ortiz, Rosa del C., Soltis, Pamela S., Soltis, Douglas E., Wang, Wei
Format Journal Article
LanguageEnglish
Published United States National Academy of Sciences 27.08.2024
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ISSN0027-8424
1091-6490
1091-6490
DOI10.1073/pnas.2322527121

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Abstract The southeastward extrusion of Indochina along the Ailao Shan–Red River shear zone (ARSZ) is one of two of the most prominent consequences of the India–Asia collision. This plate-scale extrusion has greatly changed Southeast Asian topography and drainage patterns and effected regional climate and biotic evolution. However, little is known about how Indochina was extruded toward the southeast over time. Here, we sampled 42 plant and animal clades (together encompassing 1,721 species) that are distributed across the ARSZ and are not expected to disperse across long distances. We first assess the possible role of climate on driving the phylogenetic separations observed across the ARSZ. We then investigate the temporal dynamics of the extrusion of Indochina through a multitaxon analysis. We show that the lineage divergences across the ARSZ were most likely associated with the Indochinese extrusion rather than climatic events. The lineage divergences began at ~53 Ma and increased sharply ~35 Ma, with two peaks at ~19 Ma and ~7 Ma, and one valley at ~13 Ma. Our results suggest a two-phase model for the extrusion of Indochina, and in each phase, the extrusion was subject to periods of acceleration and decrease, in agreement with the changes of the India–Asia convergence rate and angle from the early Eocene to the late Miocene. This study highlights that a multitaxon analysis can illuminate the timing of subtle historical events that may be difficult for geological data to pinpoint and can be used to explore other tectonic events.
AbstractList The southeastward extrusion of Indochina along the Ailao Shan-Red River shear zone (ARSZ) is one of two of the most prominent consequences of the India-Asia collision. This plate-scale extrusion has greatly changed Southeast Asian topography and drainage patterns and effected regional climate and biotic evolution. However, little is known about how Indochina was extruded toward the southeast over time. Here, we sampled 42 plant and animal clades (together encompassing 1,721 species) that are distributed across the ARSZ and are not expected to disperse across long distances. We first assess the possible role of climate on driving the phylogenetic separations observed across the ARSZ. We then investigate the temporal dynamics of the extrusion of Indochina through a multitaxon analysis. We show that the lineage divergences across the ARSZ were most likely associated with the Indochinese extrusion rather than climatic events. The lineage divergences began at ~53 Ma and increased sharply ~35 Ma, with two peaks at ~19 Ma and ~7 Ma, and one valley at ~13 Ma. Our results suggest a two-phase model for the extrusion of Indochina, and in each phase, the extrusion was subject to periods of acceleration and decrease, in agreement with the changes of the India-Asia convergence rate and angle from the early Eocene to the late Miocene. This study highlights that a multitaxon analysis can illuminate the timing of subtle historical events that may be difficult for geological data to pinpoint and can be used to explore other tectonic events.
The southeastward extrusion of Indochina along the Ailao Shan-Red River shear zone (ARSZ) is one of two of the most prominent consequences of the India-Asia collision. This plate-scale extrusion has greatly changed Southeast Asian topography and drainage patterns and effected regional climate and biotic evolution. However, little is known about how Indochina was extruded toward the southeast over time. Here, we sampled 42 plant and animal clades (together encompassing 1,721 species) that are distributed across the ARSZ and are not expected to disperse across long distances. We first assess the possible role of climate on driving the phylogenetic separations observed across the ARSZ. We then investigate the temporal dynamics of the extrusion of Indochina through a multitaxon analysis. We show that the lineage divergences across the ARSZ were most likely associated with the Indochinese extrusion rather than climatic events. The lineage divergences began at ~53 Ma and increased sharply ~35 Ma, with two peaks at ~19 Ma and ~7 Ma, and one valley at ~13 Ma. Our results suggest a two-phase model for the extrusion of Indochina, and in each phase, the extrusion was subject to periods of acceleration and decrease, in agreement with the changes of the India-Asia convergence rate and angle from the early Eocene to the late Miocene. This study highlights that a multitaxon analysis can illuminate the timing of subtle historical events that may be difficult for geological data to pinpoint and can be used to explore other tectonic events.The southeastward extrusion of Indochina along the Ailao Shan-Red River shear zone (ARSZ) is one of two of the most prominent consequences of the India-Asia collision. This plate-scale extrusion has greatly changed Southeast Asian topography and drainage patterns and effected regional climate and biotic evolution. However, little is known about how Indochina was extruded toward the southeast over time. Here, we sampled 42 plant and animal clades (together encompassing 1,721 species) that are distributed across the ARSZ and are not expected to disperse across long distances. We first assess the possible role of climate on driving the phylogenetic separations observed across the ARSZ. We then investigate the temporal dynamics of the extrusion of Indochina through a multitaxon analysis. We show that the lineage divergences across the ARSZ were most likely associated with the Indochinese extrusion rather than climatic events. The lineage divergences began at ~53 Ma and increased sharply ~35 Ma, with two peaks at ~19 Ma and ~7 Ma, and one valley at ~13 Ma. Our results suggest a two-phase model for the extrusion of Indochina, and in each phase, the extrusion was subject to periods of acceleration and decrease, in agreement with the changes of the India-Asia convergence rate and angle from the early Eocene to the late Miocene. This study highlights that a multitaxon analysis can illuminate the timing of subtle historical events that may be difficult for geological data to pinpoint and can be used to explore other tectonic events.
The southeastward extrusion of Indochina is one of the most striking geological events in Asia. Here, we investigate the timing and mode of the extrusion of Indochina through a multitaxon analysis. We show that the lineage divergences across the Ailao Shan–Red River shear zone started in the early Eocene, and since then, the divergences through time were not random but were largely confined to two periods of acceleration and decrease, coinciding with the changes of the India–Asia convergence rate and angle and the uplift of the Qinghai–Tibet Plateau during the early Eocene-late Miocene. Accordingly, we put forward a two-phase model for the extrusion of Indochina. Our results will impact ideas of both tectonic and biotic evolution in Asia. The southeastward extrusion of Indochina along the Ailao Shan–Red River shear zone (ARSZ) is one of two of the most prominent consequences of the India–Asia collision. This plate-scale extrusion has greatly changed Southeast Asian topography and drainage patterns and effected regional climate and biotic evolution. However, little is known about how Indochina was extruded toward the southeast over time. Here, we sampled 42 plant and animal clades (together encompassing 1,721 species) that are distributed across the ARSZ and are not expected to disperse across long distances. We first assess the possible role of climate on driving the phylogenetic separations observed across the ARSZ. We then investigate the temporal dynamics of the extrusion of Indochina through a multitaxon analysis. We show that the lineage divergences across the ARSZ were most likely associated with the Indochinese extrusion rather than climatic events. The lineage divergences began at ~53 Ma and increased sharply ~35 Ma, with two peaks at ~19 Ma and ~7 Ma, and one valley at ~13 Ma. Our results suggest a two-phase model for the extrusion of Indochina, and in each phase, the extrusion was subject to periods of acceleration and decrease, in agreement with the changes of the India–Asia convergence rate and angle from the early Eocene to the late Miocene. This study highlights that a multitaxon analysis can illuminate the timing of subtle historical events that may be difficult for geological data to pinpoint and can be used to explore other tectonic events.
Author Peng, Huan-Wen
Xiang, Kun-Li
Jabbour, Florian
Wang, Wei
Soltis, Pamela S.
Soltis, Douglas E.
Li, Xiao-Qian
Xiang, Xiao-Guo
Ortiz, Rosa del C.
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Copyright Copyright National Academy of Sciences Aug 27, 2024
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Issue 35
Keywords tectonics
India–Asia collision
Cenozoic
Asia
biogeography
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Edited by Scott Edwards, Harvard University, Cambridge, MA; received December 21, 2023; accepted July 16, 2024
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Snippet The southeastward extrusion of Indochina along the Ailao Shan–Red River shear zone (ARSZ) is one of two of the most prominent consequences of the India–Asia...
The southeastward extrusion of Indochina along the Ailao Shan-Red River shear zone (ARSZ) is one of two of the most prominent consequences of the India-Asia...
The southeastward extrusion of Indochina is one of the most striking geological events in Asia. Here, we investigate the timing and mode of the extrusion of...
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StartPage e2322527121
SubjectTerms Animals
Asia, Southeastern
Biodiversity
Biological Evolution
Biological Sciences
Climate
Divergence
Drainage patterns
Eocene
Extrusion cladding
Extrusion rate
India
Life Sciences
Miocene
Phylogenetics
Phylogeny
Plants - classification
Rivers
Shear zone
Systematics, Phylogenetics and taxonomy
Tectonics
Title Phylogenetic evidence clarifies the history of the extrusion of Indochina
URI https://www.ncbi.nlm.nih.gov/pubmed/39159371
https://www.proquest.com/docview/3106243094
https://www.proquest.com/docview/3094820234
https://hal.science/hal-04862634
https://pubmed.ncbi.nlm.nih.gov/PMC11363272
Volume 121
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